Ppg Industries Ohio, Inc.

Ppg Industries, Inc.

Ut-battelle, Inc.

The University of Nottingham

Ppg Coatings Europe Bv

Ppg Industrial Ohio, Inc.

Fpg Industries Ohio, Inc.

Cambrooke Foods, Inc.

Charles F., Ii Kahle

Kurt G. Olson

Paul R. Kerr

James A. Claar

Paul H., Jr. Pettit

Kurt Gordon Olson

Karen A Barkac

David R Fenn

Richard J Sadvary

Cynthia Kutchko

Simion Coca

Dennis A Simpson

Paul H Lamers

Shanti Swarup

James B O'Dwyer

Masayuki Nakajima

Susan Fundy Donaldson

Kurt A Humbert

Shiryn Tyebjee

Truman F Wilt

Roxalana Lee Martin

Reza M Rock

Thomas R Hockswender

Daniela White

Deborah E Hayes

James R Franks

Lawrence G Anderson

Marvis E Hartman

Aditya Gottumukkala

Kymarie L Kuster

Shawn Allen DeSaw

Gregory J McCollum

Debra L Singer

Suryya K Das

Jonathan T Martz

Michael Allen Mayo

Caroline S Harris

Scott J Moravek

Davina J Schwartzmiller

Adam Bradley Powell

Peter Lawrence Votruba-Drzal

Scott W Sisco

Noel Rawle Vanier

Dennis L Faler

Edward Richard Millero, Jr

Linda K Anderson

Michael Andrew Zalich

Raphael O Kollah

Brian K Rearick

Timothy A Okel

John M Furar

Charles F Kahle, Ii

Justin Jonathan Martin

William E Eibon

Feng Wang

Anthony Michael Chasser

Rostyslaw Dowbenko

Daniel E Rardon

Steven R Zawacky

Xiangling Xu

James A Claar

David N Walters

James E Poole

Hans-Dieter Hille

Nicolas Benjamin Duarte

Irina G Schwendeman

Michael G Sandala

Christopher A Verardi

Howard L Senkfor

Steven Bowles

John E Schwendeman

Mark E Wozniak

James C Watson

Stuart Damon Hellring

Charles M Kania

Orlando Rios

Hongying Zhou

Calum Hugh Munro

Kevin C Olson

Randy E Daughenbaugh

Edward R Coleridge

Craig A Wilson

Stephen John Thomas

Umesh C Desai

Songwei Lu

William G Boberski

Darin W Laird

Kaliappa G Ragunathan

Paul H Pettit, Jr

Edward Francis Rakiewicz

Donghai Wang

William P Blackburn

Wei Wang

Constantine A Kondos

Venkateshwarlu Kalsani

Robert A Montague

James Carl Peters

Nathan J Silvernail

Jane Valenta

W David Polk

Matthew S Luchansky

Paul R Kerr

Qunhui Guo

Karen A Morow

Chad A Landis

Methods of additive manufacture using coreactive components are disclosed. Thermosetting compositions for additive manufacturing are also disclosed.

Additive manufacturing using reactive compositions

A radio frequency signaling system includes a curable coating composition configured to be cured to form a cured coating and a sensor received in the curable coating composition. The sensor includes circuitry forming an inductor-capacitor circuit. The circuitry has a maximum outer diameter of 10 μm-2.0 mm. The circuitry is configured to generate an electromagnetic field in response to an external radio frequency signal. A container configured to be monitored by a radio frequency signaling system is also provided. The container includes: a container body having an outer surface and an inner surface; a cured coating on the inner surface and/or the outer surface of the container body; and a sensor positioned in the cured coating configured to detect absorption of a fluid contained in the container body by the cured coating.

Radio frequency signaling system and curable composition

An electrically or thermally conductive polymer composition, includes: a polyester polymer having a backbone including at least 12 consecutive carbon atoms between ester linkages; and conductive particles dispersed in the polyester polymer. A component including an electrically or thermally conductive polymer composition is also disclosed. A method for self-regulating a temperature of a component is also disclosed.

Conductive polymer composition

Methods of printing a three-dimensional object using co-reactive components are disclosed. Thermosetting compositions for three-dimensional printing are also disclosed.

Coreactive materials and methods for three-dimensional printing

Additive manufacturing using polyurea materials

Multi-layer coatings comprising polymerization reaction products of 1,1-di-activated vinyl compounds are described. Also provided are processes for coating substrates with curable compositions comprising 1,1-di-activated vinyl compounds. Also provided are articles coated with this composition.

Multi-layer curable compositions containing 1,1-di-activated vinyl compound products and related processes

Acid-catalyzed curable coating compositions containing 1,1-di-activated vinyl compounds are described, including multi-layer coatings. Also provided are processes for coating substrates with coating compositions comprising 1,1-di-activated vinyl compounds. Also provided are coated articles comprising coatings formed from coating compositions comprising 1,1-di-activated vinyl compounds.

Acid-catalyzed curable coating compositions containing 1,1 di-activated vinyl compounds and related coatings and processes

Compositions having solid core particles with functionalizing layers over at least a portion of the outer surfaces of the solid core particles are described. The functionalizing layers are formed from a reaction product of a 1,1-di-activated vinyl compound, or a multifunctional form thereof, or a combination thereof.

Particles having surfaces functionalized with 1,1-di-activated vinyl compounds

A process for producing an article by three-dimensional printing includes applying a 1,1-di-activated vinyl compound-containing liquid binder over a predetermined area of a layer of solid particles. The liquid binder infiltrates gaps between the solid particles to form a first cross-sectional layer of an article, and the 1,1-di-activated vinyl compound reacts to solidify the liquid binder and bind the solid particles in the first cross-sectional layer of the article. Also provided is an article produced by the three-dimensional printing process, set forth herein.

Three-dimensional printing processes using 1,1-di-activated vinyl compounds

Lithium ion battery anodes including graphenic carbon particles are disclosed. Lithium ion batteries containing such anodes are also disclosed. The anodes include mixtures of lithium-reactive metal particles such as silicon, graphenic carbon particles, and a binder. The use of graphenic carbon particles in the anodes results in improved performance of the lithium ion batteries.

Lithium ion battery anodes including graphenic carbon particles

The present invention is directed to a coated conduit comprising: a) a conduit having an interior and exterior surface; and b) a cured coating formed from a reaction mixture that is applied to at least one surface of the conduit. The reaction mixture comprises: i) a filler material comprising fibers ranging in length from 0.1 to 15.54 cm and having an aspect ratio of at least 5; and ii) a reactive component that demonstrates a tack-free time of less than five minutes at a temperature of 20 to 25&#xb0; C. The present invention is also directed to a method of repairing or reinforcing a conduit, comprising: (a) applying a curable coating composition to at least one surface of the conduit, wherein the curable coating composition is formed from the reaction mixture described above; and (b) allowing the curable coating composition to at least partially cure by exposing the composition to ambient conditions.

Coated conduits and methods of repairing or reinforcing conduits

Growing community of inventors

Gibsonia, PA, United States of America

Kurt Gordon Olson